Imagine you have a toy car that needs batteries. The batteries are like a power source. Now, imagine the car has a special switch that turns on and off really fast to save energy. This invention is like a super-smart brain for that switch! It learns how much power the car needs and turns the switch off at just the right time to save energy. It's like the switch is getting smarter every time it turns on and off!
The Switched Mode Power Supply Control patent details an innovative method for controlling a switch in a switched-mode power supply to optimize energy efficiency and stability. The core innovation lies in an adaptive control mechanism that dynamically adjusts the reference voltage used to control the switching cycle, based on real-time feedback and learning from previous switching cycles. This addresses the problem of inefficient power conversion in traditional switched-mode power supplies, which often rely on fixed control parameters that are not optimized for varying load conditions.
The technical approach involves sensing the voltage representing current through an inductor and using this information to adjust the reference voltage, which determines when to turn off the switch during the switching cycle. By setting an initial value of the reference voltage based on the activation of the switch during previous cycles, the system can adapt to changing load conditions and optimize energy transfer. This leads to improved energy efficiency, enhanced stability, and reduced switching losses.
The business value of this technology lies in its potential to reduce energy consumption and operating costs in various applications, from consumer electronics to industrial systems. The improved control offered by this patent can also lead to more stable and reliable power supplies, reducing the risk of damage to sensitive electronic components. The market opportunity for this technology is significant, as the demand for energy-efficient power conversion continues to grow. The adoption of this technology can lead to significant cost savings, improved reliability, and a reduction in environmental impact, making it a valuable asset for businesses and consumers alike.
The Switched Mode Power Supply Control patent addresses the problem of energy waste in electronic devices that use switched-mode power supplies. These power supplies are common in everything from phone chargers to computers, and they convert electrical power from one form to another. However, traditional designs can be inefficient, wasting energy and generating heat.
This invention provides a smarter way to control the power supply. Instead of using a fixed approach, it dynamically adjusts how the power is delivered based on the device's needs. Think of it like a smart water faucet that adjusts the water flow based on how much you need. The system senses the current flowing through the power supply and uses this information to optimize the switching process.
This matters because it can lead to significant energy savings. By using power more efficiently, devices can run longer on a single charge, and energy bills can be reduced. It also makes power supplies more reliable, reducing the risk of damage to electronic components. The market impact could be substantial, as this technology can be applied to a wide range of electronic devices. Companies that adopt this technology can gain a competitive advantage by offering more energy-efficient and reliable products.
Looking ahead, this technology could become a standard feature in power supplies. As energy costs continue to rise, the demand for efficient power conversion will only increase. This could lead to further innovations in power electronics and a more sustainable future. For investors, this patent represents an opportunity to invest in a technology that has the potential to disrupt the power supply market.
An illustrative example embodiment of a method is for controlling a switch. The switch is used to charge a capacitor that provides an output voltage. The switch has an inductor on an input side between a power source and the switch. The method includes: initiating a switching cycle including turning on the switch, sensing a voltage representing current through the inductor, using a reference voltage as a basis for turning off the switch during the switching cycle when the sensed voltage exceeds the reference voltage, and setting an initial value of the reference voltage at a beginning of the switching cycle based on at least one feature of an activation of the switch during at least one previous switching cycle.
The Switched Mode Power Supply Control patent presents a novel approach to optimizing switched-mode power supply performance through adaptive control. The technical architecture centers around a feedback loop that continuously monitors the inductor current and adjusts the switching parameters accordingly. This involves sophisticated sensing circuitry to accurately measure the inductor current and a control algorithm to dynamically adjust the reference voltage used to control the switch. The algorithm is designed to learn from previous switching cycles, predicting the optimal moment to turn off the switch to minimize switching losses and maximize energy transfer.
The implementation details involve precise timing control and synchronization between the sensing circuitry and the control algorithm. The algorithm must be able to quickly and accurately process the feedback data and adjust the reference voltage in real-time. This requires efficient code and optimized hardware to minimize latency and ensure stable operation. The integration of this control system into existing switched-mode power supply designs may require modifications to the existing circuitry and firmware.
The performance characteristics of this technology are expected to be superior to those of traditional switched-mode power supplies. The adaptive control mechanism should lead to improved energy efficiency, reduced switching losses, and enhanced stability under varying load conditions. Code-level implications include the need for efficient and optimized control algorithms to minimize processing overhead. The successful implementation of this technology requires a deep understanding of power electronics and control systems.
The Switched Mode Power Supply Control patent addresses a significant market need for more efficient and reliable power conversion in various applications. The market opportunity for this technology is substantial, driven by the growing demand for energy-efficient electronics and the increasing cost of energy. The competitive advantages of this technology lie in its adaptive control mechanism, which offers improved performance compared to traditional switched-mode power supplies. This can translate to significant cost savings for businesses and consumers alike.
The revenue potential for this technology is significant, driven by the potential for licensing agreements, product sales, and service contracts. The business model could involve licensing the technology to power supply manufacturers, developing and selling power supplies incorporating the patented control system, or offering consulting services to help businesses implement this technology. The strategic positioning of this technology is as a premium solution for applications where energy efficiency and reliability are critical.
The ROI projections for this technology are favorable, driven by the potential for significant cost savings and increased revenue. The adoption of this technology can lead to improved profitability, enhanced competitiveness, and a stronger brand image. The market size is large and growing, making this a potentially lucrative investment opportunity.
Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A method of controlling a switch that is used to charge a capacitor that provides an output voltage (Vo), the switch having an inductor on an input side of the switch between a power source (Vi) and the switch, the method comprising: initiating a switching cycle (k) including turning on the switch; sensing a voltage (Vsns) representing current through the inductor; using a reference voltage (Vref) as a basis for turning off the switch during the switching cycle (k) when Vsns exceeds Vref; and setting an initial value of Vref at a beginning of the switching cycle based on at least one feature of an activation of the switch during at least one previous switching cycle (k−n) and reducing Vref during the switching cycle.
A method controls a switch to charge a capacitor, providing an output voltage (Vo). An inductor sits between a power source (Vi) and the switch. The method starts a switching cycle (k) by turning the switch on. It senses a voltage (Vsns), representing the inductor's current, and uses a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. Crucially, the initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n). Vref is then reduced during the current switching cycle.
2. The method of claim 1 , comprising reducing Vref during the switching cycle using a rate such that Vref will be approximately equal to a voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor at a time when Vsns equals Vpeak.
The method described above, where a switch is controlled to charge a capacitor providing an output voltage (Vo) and an inductor sits between the power source (Vi) and the switch and the method starts a switching cycle (k) by turning the switch on. It senses a voltage (Vsns), representing the inductor's current, and uses a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref and the initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n), reduces Vref during the switching cycle. The Vref reduction happens at a rate designed to make Vref approximately equal to the voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor precisely when Vsns reaches that Vpeak voltage.
3. The method of claim 2 , wherein reducing Vref comprises using feedback information regarding a gate voltage of the switch during the switching cycle.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle using a rate designed to make Vref approximately equal to the voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor precisely when Vsns reaches that Vpeak voltage. The reduction of Vref uses feedback derived from the gate voltage of the switch during the switching cycle.
4. The method of claim 1 , wherein the at least one feature of the activation of the switch is based upon at least a duty cycle on time of the switch during the previous switching cycle (k−n).
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. The feature of the switch's activation from the previous cycle (k-n) used to determine Vref's initial value is based on the duty cycle (on-time) of the switch during that previous cycle.
5. The method of claim 4 , wherein the at least one feature of the activation of the switch is based on integrating a gate voltage (Vgate) of the switch over the on time of the switch during the previous switching cycle.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. The feature of the switch's activation from the previous cycle (k-n) used to determine Vref's initial value is based on integrating the gate voltage (Vgate) of the switch over the "on" time of the switch during that previous cycle.
6. The method of claim 5 , comprising determining the on time of the switch during the previous switching cycle by detecting a peak of an integration of Vgate during the previous switching cycle.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. The feature of the switch's activation from the previous cycle (k-n) used to determine Vref's initial value is based on integrating the gate voltage (Vgate) of the switch over the "on" time of the switch during that previous cycle. The "on" time of the switch in the previous cycle is determined by detecting the peak value of the integrated Vgate signal during that cycle.
7. The method of claim 1 , comprising determining the at least one feature of the activation of the switch for each of a plurality of previous switching cycles (k−n), wherein n=1, 2, . . . m; averaging the determined at least one feature of the plurality of previous switching cycles (k−n); and using the averaged at least one feature for setting the initial value of Vref.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. To set the initial Vref, the system determines the relevant feature of switch activation for multiple previous cycles (k-n, where n=1, 2,...m), averages those feature values, and uses the averaged value to set the initial Vref.
8. The method of claim 1 , comprising predetermining a desired peak current for the inductor; and turning off the switch during the switching cycle (k) when the current through the inductor equals or exceeds the desired peak current for the inductor.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. The system also predetermines a desired peak current for the inductor and turns off the switch during cycle (k) when the inductor current equals or exceeds this desired peak.
9. The method of claim 1 , comprising using the switch to control power to a fuel injector.
The method for controlling a switch to charge a capacitor, providing an output voltage (Vo) where an inductor sits between the power source (Vi) and the switch; starting a switching cycle (k) by turning the switch on and sensing a voltage (Vsns), representing the inductor's current; using a reference voltage (Vref) to turn the switch off during the cycle (k) when Vsns exceeds Vref. The initial value of Vref at the start of cycle (k) is set based on a characteristic of the switch's operation in a previous switching cycle (k-n) and Vref is reduced during the switching cycle. This switch is specifically used to control power supplied to a fuel injector.
10. A switch control device, comprising: a switch that is used to charge a capacitor that provides an output voltage (Vo); an inductor on an input side of the switch between a power source and the switch; a switching cycle control element that initiates activation of the switch at the beginning of a switching cycle (k); a comparator that provides an indication of a relationship between a voltage (Vsns) representing current through the inductor and a reference voltage (Vref), the switching cycle control element turning off the switch during the switching cycle (k) based on the indication from the comparator when Vsns exceeds Vref; at least one feedback loop that provides an indication of at least one feature of an activation of the switch during at least one previous switching cycle (k−n), wherein Vref is set to an initial value at a beginning of the switching cycle (k) based on the indication of the at least one feature during the previous switching cycle and Vref is reduced during the switching cycle.
A switch control device includes a switch to charge a capacitor, providing an output voltage (Vo). An inductor is placed on the switch's input side between a power source and the switch. A switching cycle control element activates the switch at the start of a switching cycle (k). A comparator indicates the relationship between a voltage (Vsns) (representing the inductor current) and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) based on the comparator's indication when Vsns exceeds Vref. At least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n). Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle.
11. The device of claim 10 , wherein Vref is reduced during the switching cycle from the initial value at a rate such that Vref will be approximately equal to a voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor at a time when Vsns equals Vpeak; and the switching cycle control element turns off the switch when Vsns exceeds Vref.
The switch control device, which includes a switch to charge a capacitor, providing an output voltage (Vo); an inductor placed on the switch's input side between a power source and the switch; a switching cycle control element that activates the switch at the start of a switching cycle (k) and a comparator that indicates the relationship between a voltage (Vsns), representing the inductor current and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) when Vsns exceeds Vref and at least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n) and Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle, reduces Vref from its initial value at a rate intended to make Vref approximately equal to a voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor at the moment Vsns equals Vpeak. The switching cycle control element then turns off the switch when Vsns exceeds Vref.
12. The device of claim 11 , comprising a second feedback loop that provides information regarding a gate voltage of the switch during the switching cycle; and wherein Vref is reduced at a rate based on the information regarding the gate voltage of the switch during the switching cycle.
The switch control device, which includes a switch to charge a capacitor, providing an output voltage (Vo); an inductor placed on the switch's input side between a power source and the switch; a switching cycle control element that activates the switch at the start of a switching cycle (k) and a comparator that indicates the relationship between a voltage (Vsns), representing the inductor current and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) when Vsns exceeds Vref and at least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n) and Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle, reduces Vref from its initial value at a rate intended to make Vref approximately equal to a voltage (Vpeak) corresponding to a preselected peak current threshold of the inductor at the moment Vsns equals Vpeak, and the switching cycle control element then turns off the switch when Vsns exceeds Vref. The device has a second feedback loop providing information about the gate voltage of the switch during the switching cycle, and the rate at which Vref is reduced is based on this gate voltage information.
13. The device of claim 10 , wherein the at least one feature of the activation of the switch is based upon at least a duty cycle ON-time of the switch during the previous switching cycle (k−n).
The switch control device includes a switch to charge a capacitor, providing an output voltage (Vo). An inductor is placed on the switch's input side between a power source and the switch. A switching cycle control element activates the switch at the start of a switching cycle (k). A comparator indicates the relationship between a voltage (Vsns) (representing the inductor current) and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) based on the comparator's indication when Vsns exceeds Vref. At least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n). Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle. The feature of the switch's activation from the previous cycle (k-n) that is used to set Vref is based on the duty cycle (ON-time) of the switch during that previous cycle.
14. The device of claim 13 , wherein the at least one feedback loop comprises an integrator that is configured to integrate a gate voltage (Vgate) of the switch over the on time of the switch during the previous switching cycle; and the at least one feature of the activation of the switch is based on an output of the integrator.
A power conversion device includes a switch with a feedback loop that regulates the switch's activation based on its previous switching cycle behavior. The feedback loop incorporates an integrator that continuously integrates the gate voltage (Vgate) of the switch over its on-time during the prior cycle. The integrated value is then used to determine at least one feature of the switch's activation, such as timing, duty cycle, or voltage levels, in the current cycle. This approach ensures precise control over the switch's operation by dynamically adjusting activation parameters based on real-time performance data. The integrator's output provides a cumulative measure of the gate voltage over time, allowing for fine-tuned adjustments to optimize efficiency, reduce switching losses, or maintain stability in power conversion applications. The feedback loop may also include additional components, such as comparators or controllers, to process the integrator's output and generate the necessary control signals for the switch. This method enhances the device's responsiveness to varying load conditions and improves overall system performance.
15. The device of claim 14 , wherein the at least one feedback loop comprises a peak detector configured to detect a peak of an integration of Vgate during the previous switching cycle; and the detected peak of Vgate indicates an end of the on time of the switch during the previous switching cycle.
The switch control device includes a switch to charge a capacitor, providing an output voltage (Vo). An inductor is placed on the switch's input side between a power source and the switch. A switching cycle control element activates the switch at the start of a switching cycle (k). A comparator indicates the relationship between a voltage (Vsns) (representing the inductor current) and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) based on the comparator's indication when Vsns exceeds Vref. At least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n). Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle. The feedback loop includes an integrator to integrate the gate voltage (Vgate) and a peak detector to find the peak of the integrated Vgate during the previous cycle. The detected peak indicates the end of the switch's "on" time in that cycle.
16. The device of claim 10 , wherein the at least one feedback loop determines the at least one feature of the activation of the switch for each of a plurality of previous switching cycles (k−n), wherein n=1, 2, . . . m; the at least one feedback loop is configured to determine an average of the determined at least one feature of the plurality of previous switching cycles (k−n); and the averaged at least one feature is used for setting the initial value of Vref.
The switch control device includes a switch to charge a capacitor, providing an output voltage (Vo). An inductor is placed on the switch's input side between a power source and the switch. A switching cycle control element activates the switch at the start of a switching cycle (k). A comparator indicates the relationship between a voltage (Vsns) (representing the inductor current) and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) based on the comparator's indication when Vsns exceeds Vref. At least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n). Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle. The feedback loop determines the relevant feature for multiple previous cycles (k-n, where n=1, 2,...m), calculates the average of those feature values, and then uses this averaged feature value to set the initial value of Vref.
17. The device of claim 10 , wherein the inductor has a predetermined desired peak current; and the switching control element turns off the switch during the switching cycle (k) when a current through the inductor equals or exceeds the desired peak current for the inductor.
The switch control device includes a switch to charge a capacitor, providing an output voltage (Vo). An inductor is placed on the switch's input side between a power source and the switch. A switching cycle control element activates the switch at the start of a switching cycle (k). A comparator indicates the relationship between a voltage (Vsns) (representing the inductor current) and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) based on the comparator's indication when Vsns exceeds Vref. At least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n). Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle. The inductor has a predetermined, desired peak current, and the switching control element turns off the switch during cycle (k) when the inductor current reaches or exceeds this desired peak current.
18. The device of claim 10 , comprising a load that is powered by the output of the switch.
The switch control device, which includes a switch to charge a capacitor, providing an output voltage (Vo); an inductor placed on the switch's input side between a power source and the switch; a switching cycle control element that activates the switch at the start of a switching cycle (k) and a comparator that indicates the relationship between a voltage (Vsns), representing the inductor current and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) when Vsns exceeds Vref and at least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n) and Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle, also includes a load that is powered by the switch's output.
19. The device of claim 18 , wherein the load comprises a fuel injector.
The switch control device, which includes a switch to charge a capacitor, providing an output voltage (Vo); an inductor placed on the switch's input side between a power source and the switch; a switching cycle control element that activates the switch at the start of a switching cycle (k) and a comparator that indicates the relationship between a voltage (Vsns), representing the inductor current and a reference voltage (Vref). The switching cycle control element turns off the switch during cycle (k) when Vsns exceeds Vref and at least one feedback loop provides information on a feature of the switch's activation during a previous cycle (k-n) and Vref's initial value at the start of cycle (k) is set based on this feature from the previous cycle, and Vref is reduced during the switching cycle, has a load that is powered by the output of the switch, where that load is specifically a fuel injector.
[0-05] Hook: Want to save energy and money with your electronics? [0:05-0:20] Problem: Old power supplies waste energy. They don't adjust to what your device needs, leading to inefficiency. [0:20-0:50] Solution: Switched Mode Power Supply Control is a new technology that dynamically adjusts power supplies for peak efficiency. It learns from previous cycles to optimize energy transfer. [0:50-1:00] Call to action: Learn more about Switched Mode Power Supply Control at patentable.app! #EnergyEfficiency #Innovation #Tech
[0-3s] HOOK 1: Tired of your phone battery draining too fast? [0-3s] HOOK 2: Want to save energy and money? [0-3s] HOOK 3: Ever wonder how power supplies work? [3-15s] PROBLEM: Old power supplies waste energy and can be unreliable. They don't adapt to your device's needs, leading to inefficiency and potential damage. [15-45s] SOLUTION: Switched Mode Power Supply Control is a new technology that dynamically adjusts the power supply to optimize energy transfer. It learns from previous cycles to maximize efficiency and stability. [45-60s] CTA: Learn more about Switched Mode Power Supply Control and how it can revolutionize power electronics at patentable.app! #PowerSupply #EnergyEfficiency #Innovation #Tech
[0-5s] HOOK 1: Did you know power supplies can be way more efficient? [0-5s] HOOK 2: Unlocking the secret to better power supplies. [5-20s] CONTEXT: Power supplies are essential for all electronic devices, but traditional designs can be inefficient, wasting energy and generating heat. [20-60s] INNOVATION: Switched Mode Power Supply Control dynamically adjusts the switching cycle to optimize energy transfer. It uses advanced sensing and control mechanisms to adapt to changing load conditions. [60-80s] IMPACT: This technology can lead to significant energy savings, improved reliability, and reduced environmental impact. It has the potential to transform various industries, from consumer electronics to industrial systems. [80-90s] CLOSING: Learn more about Switched Mode Power Supply Control at patentable.app! #PowerElectronics #EnergyEfficiency #Innovation #Tech
[0-2s] VISUAL HOOK 1: Show a visually appealing animation of a power supply circuit. [0-2s] VISUAL HOOK 2: Show a graph of energy efficiency improvement. [2-15s] PROBLEM: Inefficient power supplies are a major source of energy waste in modern electronics. They contribute to higher energy bills and increased carbon footprint. [15-35s] SOLUTION: Switched Mode Power Supply Control provides a more efficient and precisely controlled power conversion process. It dynamically adjusts the switching cycle to optimize energy transfer and minimize losses. [35-45s] CTA: Link in bio for full Switched Mode Power Supply Control details! #PowerSupply #EnergyEfficiency #Innovation #Tech
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April 27, 2016
December 26, 2017
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